Microclimates – as opposed to large-scale regional or even global scale macroclimate models – may hold the key to offsetting the negative impacts of extreme weather events on already vulnerable insect populations.

EMBL’s AI Strategy aims to fundamentally transform life sciences research by comprehensively integrating artificial intelligence (AI). AI applications in life sciences include large-scale data analysis, protein prediction, biomarker discovery, image processing, and drug development. Funding from the German Hector Foundation will support key initiatives at EMBL, such as recruiting interdisciplinary talent, expanding AI infrastructure, and advancing training programmes. 

After six years of intensive research and testing, the Rhisotope Project has officially reached operational status – where rhinos will effectively be protected through nuclear technology.

The project aims to disrupt the illegal rhino horn trade by embedding low-level radioactive isotopes into the horn. These radioisotopes can be detected by radiation detection equipment at countries borders around the world, allowing for the effective interception of trafficked horns.

We developed THER, a web tool integrating 63 hypoxia-related tumor transcriptomic datasets, enabling differential expression, expression profiling, correlation, enrichment, and drug sensitivity analyses. It helps identify valuable biomarkers, further reveal the molecular mechanisms of tumor hypoxia, and identify effective drugs, thus providing a scientific basis for tumor diagnosis and treatment. Experimental verification showed hypoxia reduces tumor cell sensitivity to chemotherapy drugs. Accessible at https://smuonco.shinyapps.io/THER/.

Western University researchers have developed an innovative way to reconstruct how crickets sing, based on the physical formation of the chirping insects’ wings, using measurements from preserved samples and computational modelling.